Project 01 · AgriTech / Controlled-Environment Agriculture

AI Ponics Autonomous Hydroponics Farm

6,500 Plants Under Continuous Autonomous Control

Industry
AgriTech / Controlled-Environment Agriculture
Services
IoT Systems AI/ML Embedded Firmware SaaS Industrial Design
TRL
1 → 9
Duration
14 months
Technologies
Edge AI LoRaWAN MQTT ESP32 PLC Computer Vision Time-Series DB React
Three-layer autonomous hydroponics stack diagram
Figure 1 — Layered system architecture from physical farm to cloud SaaS.
Operator dashboard mockup
Figure 2 — Operator dashboard with zone hotspot highlighting and canopy vision feed.
First-cycle performance metrics dashboard
Figure 3 — Yield vs baseline, water trend, and per-zone uptime distribution.
Real-world AI Ponics Autonomous Hydroponics Farm installation
Figure 4 — Real-world deployment.

Project background

A commercial-scale indoor farming venture required a turnkey hydroponic facility capable of sustaining 6,500 plants with minimal human intervention. The client needed a fully autonomous grow environment with predictable yield, continuous quality, and remote monitoring.

Challenge

Coordinating hundreds of sensors, dosing pumps, HVAC units, and lighting zones while preserving sub-second control loops. Variability in crop types, water chemistry, and environmental drift made rule-based logic insufficient. The system had to degrade gracefully during network loss and avoid single points of failure that could destroy a full harvest.

Approach & solution

Our team designed a layered architecture: PLC-grade edge controllers for deterministic actuation, an AI advisory layer for nutrient and climate prediction, and a cloud SaaS for fleet-wide analytics. Twelve grow zones were modeled as digital twins, calibrated against real-world telemetry. Computer vision cameras monitored canopy density and leaf color daily, feeding a growth-stage classifier. Nutrient dosing was tuned through closed-loop EC/pH control with safety interlocks.

Results & benefits

The facility achieved continuous 24/7 operation with sub-1% downtime across the first harvest cycle. Yields improved 22% over the client's benchmark greenhouse, while water consumption dropped 38%. The dashboard gave operators a single pane of glass across all 6,500 plants, and alerts reduced response time to anomalies by over 80%.

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